Skip to content
Open access

Application of multi-source information fusion and graph neural networks in fault localization for complex agricultural machinery systems

Jul 2026 · Diagnostyka · Vol 27, pp. 1-19 · 0 citations · 30 references

TL;DR

This research introduces Multi-Source Graph-Enhanced Fault Localization (MS-GEFL) framework, a dynamic graph model is used to represent the mechanical system and Graph Neural Networks are used to propagate the information related to the fault across different operating conditions to identify the anomalies.

Abstract

The modern agricultural equipment needs to be able to cope with changes in field conditions, however, fault detection is still challenging for the time being with the traditional rule based or single sensor based diagnostic procedures. These methods frequently do not reflect data interactions and interdependencies within components. To overcome these drawbacks, this research introduces Multi-Source Graph-Enhanced Fault Localization (MS-GEFL) framework. The framework combines vibration sensors, operational logs, environmental data and controller outputs in a multi-source fusion layer to guarantee that the data is consistent. Then, a dynamic graph model is used to represent the mechanical system and Graph Neural Networks (GNNs) are used to propagate the information related to the fault across different operating conditions to identify the anomalies. The experimental results show that the precision, recall and F1 of MS-GEFL are 93.9%, 94.6% and 94.0% respectively. Additionally, the framework makes operations more efficient, with an average localization delay of 1.28 seconds and an average robustness index of 91.7% even in the presence of noise in sensor data. This technology is intelligent and reliable solution for fault localization in complex agricultural machinery.

Read PDF

Similar papers

Open access Sep 2026

Comparative Analysis of CNN and LSTM Neural Network Models: Influencing Factors in Agricultural Machinery Fault Detection

Predictive maintenance is increasingly vital for agricultural machinery as sensor-based monitoring becomes more prevalent. Researchers are investigating reliable fault detection across diverse operating conditions and real-world constraints. This study compares three deep learning approaches for fault detection, mainte...

H. Şahin · 0 citations
Open access Oct 2026

Ensemble Fault Identification Method for Converter Valve Based on Multi-Model Feature Fusion and Dynamic Graph Network Modeling

Accurate fault identification is essential for reliable condition monitoring of converter valves in flexible DC transmission systems. Existing single-model methods are limited by architecture-specific feature extraction, while conventional multi-model fusion methods often neglect semantic inconsistency and sample-depen...

Xiao-Fei Zhang, Shu-Yuan Wang, Jin-Bo Li et al. · 0 citations
Open access 2026

A Data-Mechanism Fusion Method for Distribution Network Fault Diagnosis Based on Digital Twin

: Accurate fault diagnosis in distribution networks is essential for ensuring reliability and reducing outage time, particularly as power systems undergo digital transformation. Existing digital twin-based methods struggle to deeply integrate data-driven adaptability with physics-based interpretability, which limits th...

Hao-Nan Xie, Duan-Jiao Li, Bo Jiang et al. · 0 citations
Open access Aug 2026

An Integrated Fault Localization and Diagnosis Method for NPP Temperature Sensor Systems Based on Abnormal Feature-GCN

Temperature sensor systems are critical for nuclear power plant (NPP) condition monitoring, whose reliability underpins unit safety and stability. Fault localization and diagnosis are essential to sustain their stable service. Conventional Principal Component Analysis (PCA) and Graph Neural Network (GNN) methods suffer...

Zhan Xing, Xin-Feng Guo, Xiao-Wu Chen et al. · 0 citations
#graph neural networks Conference Sep 2026

Graph neural network-based predictive maintenance algorithm for safe operation of dust removal systems in coal-fired power plants

A novel Graph Neural Network–based Predictive Maintenance (GNN-PdM) algorithm designed to model the spatiotemporal dependencies within dust removal systems for proactive fault prediction and safety optimization is presented.

Xun-Qing Xu, Lei Dong, Yigang Lou et al. · 0 citations

We use cookies to run the site and, with your consent, for analytics and to show ads. See our Cookie Policy.